Quality Heat Pipe Evacuated Tube Solar Thermal Collectors For Domestic Hot Water Building Heating factory
Quality Heat Pipe Evacuated Tube Solar Thermal Collectors For Domestic Hot Water Building Heating factory
Quality Heat Pipe Evacuated Tube Solar Thermal Collectors For Domestic Hot Water Building Heating factory

Heat Pipe Evacuated Tube Solar Thermal Collectors For Domestic Hot Water Building Heating

Heat Pipe Evacuated Tube Solar Thermal Collectors For Domestic Hot Water Building Heating
Basic Properties
Country Of Origin
China
Brand Name
ZOVIV
PRODUCT MODEL
HPC395
Trading Properties
Payment Method
D/P,D/A,L/C,T/T
Product Summary

High Efficiency Heat Pipe Evacuated Tube Solar Collector The Heat Pipe Solar Collector is designed to convert solar energy into usable thermal energy for domestic hot water, building heating and other solar thermal applications. Based on evacuated tube technology and sealed heat pipes, it provides ...

Product Details
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Domestic Hot Water Solar Thermal Collectors

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Building Heating Solar Thermal Collectors

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Heat Pipe Evacuated Tube Solar Collector

Type: Evacuated Tube Solar Collector
Fins: 3003 Aluminum
Weight: 88kg
Number Of Tubes: 25
Max. Operating Temperature: 120°C
Working Pressure: 0.6MPa
Fluid Capacity: 1.67L
Connection Quantity: 2
Product Description

High Efficiency Heat Pipe Evacuated Tube Solar Collector

The Heat Pipe Solar Collector is designed to convert solar energy into usable thermal energy for domestic hot water, building heating and other solar thermal applications. Based on evacuated tube technology and sealed heat pipes, it provides an efficient and reliable method of transferring solar heat without water flowing directly through the heat pipes.

Its enclosed heat-transfer structure, corrosion-resistant materials and flexible configuration make it suitable for residential installations as well as commercial and large-scale solar thermal projects.

Sealed Heat Pipe Technology

The core of the collector is a sealed heat pipe containing a working fluid. When solar radiation heats the lower section of the heat pipe, the working fluid vaporizes and moves rapidly toward the condenser section.

At the condenser, the heat is released to the circulating water or heat-transfer medium. The working fluid then condenses and returns to the lower section, completing the heat-transfer cycle.

This phase-change process enables rapid movement of thermal energy through the heat pipe while keeping the heat-transfer circuit enclosed.

Water-Free Heat Transfer

Unlike collectors in which water flows directly through the heat collection tubes, the heat pipes are fully sealed and water-free.

This structure helps reduce the risk of freezing, bursting and leakage within the heat pipes and minimizes the influence of water quality on the heat-transfer components.

It also supports reliable operation across changing seasonal conditions, making the collector suitable for both colder climates and areas with hot summers.

Rapid Thermal Response

High-conductivity metal heat pipes transfer absorbed solar heat efficiently from the collector tubes to the condenser section.

The combination of evacuated tubes, aluminum fins and high-purity copper channels provides an effective thermal path for solar energy. 3003 aluminum fins help collect and transfer heat, while copper components provide high thermal conductivity and corrosion resistance.

Durable Collector Construction

The collector is assembled with materials selected for long-term solar thermal applications.

Silver-copper welded connections provide strong and durable joints, while the enclosed heat-pipe structure helps protect the thermal circuit from external water exposure.

A suitable heat-transfer medium can be selected according to the local climate and system operating conditions.

Flexible System Configuration

Solar thermal projects vary in building size, installation conditions and thermal demand. The collector can therefore be customized in terms of size, structure and configuration to suit different project requirements.

It can be incorporated into systems for:

  1. Residential hot water

  2. Commercial hot water

  3. Building heating

  4. Swimming pool heating

  5. Centralized solar thermal systems

Applications

The Heat Pipe Solar Collector is suitable for a wide range of solar thermal installations, including:

Hotels & Resorts
For regular domestic hot water requirements and solar-assisted heating.

Schools & Universities
For centralized hot water systems serving students and staff.

Hospitals
For facilities requiring a dependable renewable heat source.

Office & Public Buildings
For solar-assisted hot water and heating applications.

Swimming Pools
For solar thermal support in pool heating systems.

Industrial & Eco-Energy Projects
For larger installations where solar energy can contribute to thermal energy demand.

The Heat Pipe Solar Collector provides a practical solar thermal solution for distributors, system integrators, EPC contractors and project developers seeking efficient heat collection with reliable operation and flexible customization.

Heat Pipe Evacuated Tube Solar Thermal Collectors For Domestic Hot Water Building HeatingHeat Pipe Evacuated Tube Solar Thermal Collectors For Domestic Hot Water Building Heating

Heat Pipe Evacuated Tube Solar Thermal Collectors For Domestic Hot Water Building Heating

Collector Model HPC318 HPC395 HPC472
Dimensions (mm) 1720×1936×156 2120×1936×156 2520×1936×156
Vacuum Tube Spec φ58×1800 φ58×1800 φ58×1800
Vacuum Tube Quantity 20 25 30
Gross Area (m²) 3.18 3.95 4.72
Aperture Area (m²) 2.00 2.50 3.00
Net Weight (kg) 70 88 104
Working Pressure (MPa) 0.6 MPa 0.6 MPa 0.6 MPa
Connection Size G3/4" Thread G3/4" Thread G3/4" Thread
Connection Quantity 2 2 2
Overall Heat Loss Coeff. [W/(m²·K)] 2.45 2.45 2.45
Max. Operating Temperature (°C) 120°C 120°C 120°C
Peak Efficiency 0.72 0.72 0.72
Rated Efficiency ① 0.60 0.60 0.60
Rated Power (kW) ② (400W/m²) 0.33 0.42 0.50
Rated Power (kW) ② (700W/m²) 0.77 0.96 1.65
Rated Power (kW) ② (1000W/m²) 1.20 1.50 1.80
Fluid Capacity (L) 1.35 1.67 1.98
Notes: 1. Rated Efficiency: Based on total solar irradiance of 1000 W/m² on the absorber surface, with an average temperature difference of 50°C between the collector and ambient air.
2.Rated Output: Refers to thermal output at irradiance levels of 400, 700, and 1000 W/m², under a temperature difference of 50°C, calculated as: Rated efficiency × Absorber area × Solar irradiance.